Dr. Mustafa Al-Naser
CV coming soon
CV coming soon
Offset wells proximal to new hydraulically fractured wells often see intense pressure spikes that can damage the structure of the well, promote sand production and/or impact post-completion production. To mitigate these impacts, operators may shut in all offset wells within a radius of the new completion. Determination of the shut-in radius is often based on analogous operations and experience alone, and tends to be conservatively derived, potentially leading to the unnecessary shut-in of wells that may otherwise not experience any pressure event. Shutting-in too many wells can be the largest expense incurred by a new completion as operators not only work-over the offset wells, but also lose production for the entirety of the completion job. On the other hand, an underestimated shut-in radius might enhance fracture-driven interference during a completion job. An analytics and machine learning approach is presented to better understand the area of concern for offset wells and provide a data-driven recommendation for shut-in radius. The approach has been applied to a large field data set and indicates that historical data can be used to quantify the zone of communication and provide recommendations for future operations.
Carolan (Carrie) Laudon holds a PhD in geophysics from the University of Minnesota and a BS in geology from the University of Wisconsin Eau Claire. She has been Senior Geophysical Consultant with Geophysical Insights since 2017 working with Paradise®, their machine learning platform. Prior roles include Vice President of Consulting Services and Microseismic Technology for Global Geophysical Services and 17 years with Schlumberger in technical, management and sales, starting in Alaska and including Aberdeen, Scotland, Houston, TX, Denver, CO and Reading, England. She spent five years early in her career with ARCO Alaska as a seismic interpreter for the Central North Slope exploration team.
Oil and Gas Upstream Operations is a complex network of assets, processing plants, and inventory tank farms with continuous flows of material and products. The industry has decades of optimization experience and teams of professionals working to maximize production, reduce costs, and improve safety and reliability on these different business areas. The overarching challenge is optimizing the entire end-to-end operation involving multiple business areas in real time. The challenges arise due to the volume and variety of data, as well as the silos created by localized operating objectives.
By leveraging the power of cloud computing, machine learning, operations research, and AI, the Oil & Gas industry can make the most out of their real time IoT data to uncover optimization opportunities across their end-to-end operations. This presentation focuses on how a prediction-optimization framework is enabling one of Canada’s leading integrated energy companies to realize production improvements in extraction, upgrading, and tank farms operations. This solution augments their current workflow with new capabilities to dynamically identify opportunities, better manage operations with early process upset predictions, and near-real time operating plan generation capacity.
Crystal is an Analytics & AI Manager at IBM’s Advanced Analytics & AI practice in Canada. She focuses on leading multi-disciplinary teams to help companies build digital transformative capabilities and delivering AI solutions to empower businesses in making data-driven decisions. Prior to joining IBM, Crystal spent several years as an engineer in the Oil & Gas sector where she honed her technical skills and passion for analytics application in industrial settings. She specializes in use case and program design, predictive maintenance, and production optimization. She holds a BASc. in Mineral Engineering and a Masters degree in Business Analytics.
Overview of examples where IBM applied advanced cognitive computing to exploration and production processes in the oil & gas industry. Starting from Geoscience AI platform that rapidly digests and interprets geological information spread across geological papers, seismic images, well logs and supports knowledge capture from a broad range of studies; and concluding with AI Production Optimization solution applied to multi-facilities continuous production process. The Geoscience solutions have delivered material reduction of exploration and production risks and avoided hundreds of millions in exploration costs. The Production Optimization solution demonstrated the efficacy of AI-based systems in predicting complex interdependent production process failures, reducing recovery time, and alerting operators to production improvement opportunities in a steady-state operations mode materially reducing production costs per barrel.
Dariusz Piotrowski, Director, Global AI Solutions, IBM Natural Resources Industry Platform, leads the strategy and development of AI (Artificial Intelligence) solutions in natural resources (oil, gas, and mining). Dariusz specializes in large transformational projects focused on optimization, machine learning, and cognitive analytics. He has more than 20 years of technology and consulting experience working with senior leaders within some of the world’s largest natural resources companies. Dariusz helps these companies realize business value through fusing advanced technologies, data science, applied R&D, and agile methodologies and practices to transform business processes and performance. Currently, Dariusz leads the global natural resources AI development team within IBM Industry Platforms. Dariusz holds architecture and civil engineering degrees from Warsaw University of Technology in Poland and an M.B.A. from the Richard Ivey School of Business in Western Ontario.
In 2019, innovation and in particular digital innovation have taken center stage in enabling companies to re-orient their businesses to the new economic reality. Artificial Intelligence is seen by many as a key enabling technology, but companies often struggle to move their innovation pipeline into impactful production systems. This talk will discuss :
The role of Generation Z and Generation See-the-Beach in innovation
Vendors, Communities and Secret Sauce – how to balance investments in innovation
Building enterprise-grade digital innovation platforms
As Chief Technology Officer – Energy, David is responsible for Dell Technologies’ strategy for the Energy industry. He works with partners and clients to identify business needs and leads teams to develop strategies and architectures to support these requirements. David oversees the roll out of Dell Technologies’ Energy Industry strategy and solutions within the client base globally.
Prior to working for Dell Technologies, David established a highly respected position in the Petro-technical Computing and Information Management community where he was described as “a leader in the global Information Management and Infrastructure community” where he was “highly respected for his ability to engage with clients, develop new solutions and master complex technical/business problems.”
As Information Management Practice Manager for Halliburton-Landmark, David was responsible for architecting, building and operating some of the world’s largest outsourced geotechnical information management and application hosting solutions including for Shell and PGS as well as the National Hydrocarbon Databanks for the UK, Norway and Oman.
Prior to joining Dell Technologies, David was Director of Operations for FUSE IM where he built a team to bring to market FUSE IM’s cloud-based workflow, collaboration and data management tools for petro-technical data. FUSE IM was acquired by Target Energy Solutions in 2014.
David is Dell Technologies’ representative on the OpenEarth Community Executive Committee and was recently elected to the Open Group’s Open Subsurface Data Universe Management Committee. He has previously served on a number of industry committees including the European ECIM Management Committee and SPE’s “Petabytes in Asset Management.” He has delivered numerous technical papers at conferences around the world and holds a patent for his work on the remote visualization of geotechnical applications.
Upstream processes for the petroleum industry are now data-driven. Throughout the history of exploration and production in unconventional environments, multidisciplinary engineering and geoscience data have been continuously collected. Now, using machine learning and AI, this data is being used in new ways to address fracture stimulation and frac-driven interference by enhancing frac modeling. Through the use of data-driven machine learning techniques, models and frameworks can be tailored to individual assets of interest to predict and analyze frac stimulation within a reservoir. However, it seems the data available is still not enough to accurately predict frac behavior.
This presentation will focus on fluid tracking using an electromagnetic technique that provides the missing link to improve machine learning frameworks for frac modeling without disrupting existing workflows. This data directly correlates to completions and production data by providing direct measurements taken during frac stages, which in turn generates relevant features for machine learning inputs. An outlook is also given on recent developments in real time fluid tracking and how it can be integrated with AI to prevent frac-driven interference and forecast performance on a per-stage and per-well basis.
David Moore is currently the President and CEO of Deep Imaging, a leading provider of onshore magnetic imaging. A seasoned energy executive, David spent over a decade at GE Power and GE Oil & Gas and then went on to lead a PE-backed upstream manufacturing company as President and CEO. David began his career as a Captain in the United States Air Force.
The process of statistically analyzing multiple seismic attributes using a SOM (Self-Organized Map) algorithm has been around for several decades. However, advances in computing power, coupled with the many new attributes developed in the last 30 years, has made this type of analysis extremely powerful.
In the past, SOM has been used on only one attribute at a time using the seismic wavelet as the basis for the neural analysis. The approach in this presentation is using SOM on multiple seismic attributes at one time, and in a sample-based, not wavelet, format.
Studies done in the Meramec Formation in Central Oklahoma and the Woodbine Formation of East Texas will be highlighted for the SOM process’s ability to find the best reservoir through the statistical analysis of seismic attributes. Then, converting the neural clusters into Geobodies, calculations can be made to determine reservoir size and reserve estimates. A statistical tool is also embodied to show how the neural patterns can be compared to distinct petrophysical rock properties to confirm the presence of the reservoir.
Deborah is a geologist/geophysicist with 44 years of oil and gas exploration experience in Texas, Louisiana Gulf Coast and Mid-Continent areas of the US. She received her degree in Geology from the University of Oklahoma in 1976 and immediately started working for Gulf Oil in their Oklahoma City offices.
She started her own company, Auburn Energy, in 1990 and built her first geophysical workstation using Kingdom software in 1996. She helped SMT/IHS for 18 years in developing and testing the Kingdom Software. She specializes in 2D and 3D interpretation for clients in the US and internationally. For the past nine years she has been part of a team to study and bring the power of multi-attribute neural analysis of seismic data to the geoscience public, guided by Dr. Tom Smith, founder of SMT. She has become an expert in the use of Paradise software and has seven discoveries for clients using multi-attribute neural analysis.
Deborah has been very active in the geological community. She is past national President of SIPES (Society of Independent Professional Earth Scientists), past President of the Division of Professional Affairs of AAPG (American Association of Petroleum Geologists), Past Treasurer of AAPG and Past President of the Houston Geological Society. She is also Past President of the Gulf Coast Association of Geological Societies and just ended a term as one of the GCAGS representatives on the AAPG Advisory Council. Deborah is also a DPA Certified Petroleum Geologist #4014 and DPA Certified Petroleum Geophysicist #2. She belongs to AAPG, SIPES, Houston Geological Society, South Texas Geological Society and the Oklahoma City Geological Society (OCGS).
Sr Field is a gas field located 100 km offshore west Nile Delta, within the West Delta Deep Marine (WDDM) concession of Shell (Rashid/ El-Burullus joint venture). The water depth ranging from 500-1000 meters.
The Field was penetrated by 4 wells, two of them are exploration wells (So-1 & Sr-1) and the other two are development wells (Sr-a & Sir-c). It is a stratigraphic Pliocene channel of 35-40 km length and 500- 100-meter width, with a clastic sand reservoir of 100-200 meter thickness. The filed is covered by 3D seismic of good quality. One segment of this channel has about 0.65 TCF of gases and three wells from the four wells are included at this segment.
The channel was conventionally mapped using Hampson Russel Spectral decomposition. Unsupervised machine learning is recently used for clustering the data and isolate the channel using the Paradise® software from Geophysical Insights.
Spectral magnitude, spectral voice, spectral phase, sweetness, energy ratio similarity, and Envelop are were identified by Principal Component Analysis (PCA) as having the highest energy in the region of interest. These attributes were then classified simultaneously over the reservoir zone using the Self Organizing Map (SOM) application, a form of machine learning.
Application of the unsupervised Machine learning using SOM clearly demonstrate the strike and geomorphology of the Pliocene marine turbidities. The southern segment of the channel penetrated with the three wells are very well defined after posting the wells. No significant difference on the neurons (hexagons) at the locations of the three wells which reflects the similarity of reservoir nature, thickness, sand content and pay thickness. A significant other channel is resolved to the east of the main channel that is not detected using the conventional spectral decomposition.
Ali is the CEO of RockServ for petroleum services based in Cairo. He has a PhD in Exploration seismology from Cairo-Leister University and Geology B.Sc., from Alexandria University. He worked at many different scale companies included Shell, Phillips, Apache, Phoenix, IPR and many Joint Ventures. Has a 40 years oil and gas exploration and development industry and leads many true oil finder groups in Egypt, Sudan, Syria, and Yemen. He is a teaching professor at the American University in Cairo, Ain Shams, Alexandria and Cairo Universities.
Frac hits are a form of fracture-driven interference that occurs when newly drilled wells communicate with existing wells during a completion job. In most cases, frac hits leave a negative production impact. Understanding the main causes of frac hits is complicated and at the same time crucial for optimizing the net profit value of a well pad. Frac hits happen due to a combination of different parameters such as depletion and stress history, inter-well spacing, completion design, and rock characteristics. The available physics-based diagnostics workflows produce outputs with a high degree of uncertainty. These approaches also are unable to handle a database beyond a single well or a few stages. We developed a data-driven approach based on the pattern recognition capabilities of machine learning techniques to characterize and aid understanding of the root causes of frac hits in a well pad during a completion job. The approach was applied to a field data set and indicated that frac hits can be quantitatively attributed to operational or subsurface parameters such as spacing or depletion. A better understanding of frac hits will help to optimize well spacing and completion design parameters and consequently improve hydrocarbon recovery and maximize the return on capital investment.
Dr. Ali Shahkarami is a Senior Engineer at Baker Hughes GE (BHGE) where he leads the Reservoir Analytics team leading a team of subsurface domain experts and data scientists for developing the next generation of data-driven solutions and workflows for oil and gas and energy industry. He is based at the Energy Innovation Center in Oklahoma City. Prior to joining BHGE, he was an Assistant Professor of Petroleum and Natural Gas Engineering (PNGE) at Saint Francis University in Loretto, Pennsylvania. Dr. Shahkarami started the undergraduate PNGE program at Saint Francis University in 2014 and was the program head and led the program accreditation process before joining BHGE in 2018. He holds Ph.D. and MSc degrees in Petroleum and Natural Gas Engineering from West Virginia University.
Most O&G technicians have one day or another received a core analysis report, a geochemistry report, a pressure-volume-temperature report with several pages of tabulated values with no other choice but to retype the values in Excel to make them usable. This issue not only occurs in the subsurface domain but in all of the O&G sector as well as in other industries. With the support of TOTAL, Technip, Saipem, Schlumberger, Subsea7 and IFPen, Agile Data Decisions has developed an open source solution to automate the extraction of tabular data from documents. This solution combines probabilistic modeling of sequences with machine learning to detect and segment the tables. The approach is very similar to the human approach: A reader can localize a table in a page by looking at the text alignment, the spacing between strings, the ratio between numerical and letters, etc. All of these features are captured by machine learning and deep learning methods for training and detection of tabular data in this project. As required by our sponsors the technology will be released to an open source platform in October 2020 under MIT license for the benefit of the Data Management community. The presentation will describe the novel machine learning approach and provide examples of table automatic detection and segmentation.
Dr. Amit Juneja is an experienced machine learning scientist, developer and business leader. He is currently VP of Data Science at Agile Data Decisions LLC where he leads machine learning and software development projects. For the past 15 years he has led artificial intelligence (AI) and full stack projects in diverse industry sectors including US defense, oil and gas, and automotive.
At Agile Data Decisions LLC, he has led the development an AI system for information extraction from documents that is being used by several major oil and gas companies. At IBM, Amit collaborated with oil and gas companies to build optimal 2-D and 3-D vision models with deep learning and enabled several US manufacturing plants with deep learning based visual quality inspection of products in assembly lines. At Think A Move Ltd. Amit proposed and led development for $3 million of US Defense contracts to build speech recognition and natural language modelling (NLP) applications. At Goodyear Tire and Rubber Company, he led an agile and lean development for a major Internet of Things application and took the concept from prototype to production on a scalable cloud environment.
Amit pursued his love of learning by obtaining a PhD in Machine Learning/Automatic Speech Recognition from University of Maryland, College Park. He holds an MS in Electrical Engineering from Boston University and a BS in Electronics and Communication Engineering from Indian Institute of Technology.
I will share a broad overview of the forces behind AI and ML. An overview of current challenges to E&P will be discussed and ways in which ML can address these challenges. Additionally, where can ML take the industry in the future and how companies can prepare now for maximizing their benefit as technology in this area rapidly grows.
Dr. Arvind Sharma is the VP of Data & Analytics at TGS. In this role, he is responsible for Machine Learning initiatives as well as broader digital transformation. He has 10+ years of experience in various seismic and software-related work. Arvind has bachelors and masters degrees in Applied Geology and Exploration Geophysics respectively from the Indian Institute of Technology (IIT) Kharagpur. He has a Ph.D. from Virginia Tech (VT) in Geophysics.
Arvind has a broad background in the oil and gas industry as well as outside the industry. He has worked in jobs ranging from software engineering (Infosys) to efficient seismic acquisition design (PGS) to developing seismic image algorithms (BP) to prospecting and drilling exploration wells (BP). Most recently Arvind was Chief Geophysicist at PGS and held a similar role at TGS before his current position where he led the industry’s first crowdsourcing challenge “TGS-Kaggle Salt Identification Challenge.” Additionally, he holds several patents, has been the keynote speaker at major conferences and has been featured on several ML podcasts.
At TGS, his mission is to create a platform to integrate and analyze all available sub-surface information for risking and decision making. Arvind believes that data integration and machine learning will be pivotal to this industry’s future success.
In the Oil & Gas industries’ quest for efficiency and cost reduction, the need to significantly reduce the cycle time of conventional interpretation workflows while utilizing maximum detail of the seismic information (Big Data) for all exploration projects is mandatory. This talk will demonstrate our approach to enhance and accelerate the seismic interpretation task based on technology democratization.
German Larrazabal has been an R&D Geophysics Advisor for Repsol since 2011. Previously, Dr. Larrazabal was an Applied Mathematician and Computer Scientist from Universidad Central de Venezuela (UCV), Faculty of Sciences, School of Mathematics. Also, Larrazabal has a Master of Sciences in Computer Science from “Universidad Central de Venezuela”, Faculty of Science, School of Computer Science. Moreover, Larrazabal has a Ph.D. in Computer Sciences, Cum Laude award, from University Polytechnic of Catalonia (UPC), Barcelona Supercomputing Center (BSC), Barcelona, Spain.
Larrazabal has been a Professor and Researcher at the University of Carabobo, Venezuela, San Diego State University, USA and University of Texas at El Paso, USA. Also, Larrazabal has been Visiting Professor in the Computational Science Research Center (CSRC) at San Diego State University, USA. He has authored numerous papers and is a prominent speaker at digital transformation conferences.
Interpreters face two main challenges in computer-assisted seismic facies analysis. The first challenge is to define, or “label”, the facies of interest. The second challenge is to select a suite of attributes that can differentiate target facies from each other and from the background reflectivity. Accurately defining the seismic expression of a given seismic facies requires an understanding of not only geologic processes but also the limits of seismic acquisition, processing, and imaging. Our goals are to provide a good classification model in terms of validation accuracy, provide quantitative metrics (and ideally, geological insight) as to why a given attribute suite is chosen, and to minimize the computational and memory required.
In principle, a desirable attribute subset is built by detecting relevant and discarding irrelevant attributes. Relevant attributes are those that are highly correlated with the output classes using a technique called univariate attribute analysis. In contrast, redundant attributes are highly correlated with each other. We hypothesize that the redundant and useless attributes that confuse human interpreters also pose problems in machine-learning classification.
Kurt J. Marfurt joined The University of Oklahoma in 2007 where he serves as the Frank and Henrietta Schultz Professor of Geophysics within the ConocoPhillips School of Geology and Geophysics. Marfurt’s primary research interest is in the development and calibration of new seismic attributes to aid in seismic processing, seismic interpretation, and reservoir characterization. Recent work has focused on applying coherence, spectral decomposition, structure-oriented filtering, and volumetric curvature to mapping fractures and karst with a particular focus on resource plays. Marfurt earned a Ph.D. in applied geophysics at Columbia University’s Henry Krumb School of Mines in New York in 1978 where he also taught as an Assistant Professor for four years. He worked 18 years in a wide range of research projects at Amoco’s Tulsa Research Center after which he joined the University of Houston for eight years as a Professor of Geophysics and the Director of the Allied Geophysics Lab. He has received the SEG best paper (for coherence), SEG best presentation (for seismic modeling), as a coauthor with Satinder Chopra best SEG poster (one on curvature, one on principal component analysis) and best AAPG technical presentation, and as a coauthor with Roderick Perez Altimar, AAPG/SEG Interpretation best paper (on brittleness) awards. Marfurt also served as the SEG/EAGE Distinguished Short Course Instructor for 2006 (on seismic attributes). In addition to teaching and research duties at OU, Marfurt leads short courses on attributes for SEG and AAPG and currently serves as Editor-in-Chief of the AAPG/SEG journal Interpretation.
Lennart Johnsson is a Hugh Roy and Lillie Cranz Cullen Distinguished University Chair of Computer Science, Mathematics, and Electrical and Computer Engineering at the University of Houston and is Professor Emeritus at the Royal Institute of Technology, Stockholm, Sweden. Professor Johnsson has served on the Faculties of California Institute of Technology, Yale University, Harvard University, and the Royal Institute of Technology). He has served as Manager of Systems Engineering, Electrical Systems, ABB Corporate Research, Sweden and Director of Computational Sciences at Thinking Machines Corp. (TMC).
Quantitative seismic reservoir characterization poses a mathematically ill-constrained inversion problem traditionally solved by methods relying on pre-stack seismic inversion and subsequent rock physics transforms. Alternatively, subsurface models can be matched to field seismic data by seismic forward modeling using wells as calibration points. Both these approaches face practical limitations in the sparsity of calibration data and severe non-linearity of the problem requiring multiple simplifying assumptions. Recent extensive developments in machine learning and data-driven model building can provide significant accuracy and efficiency uplift in solving this problem by streamlining seismic attribute analysis and avoiding the need to pass through the elastic domain. We present various approaches to seismic machine learning and their application to both static and dynamic reservoir characterization projects and discuss comparisons to conventional 3D and 4D quantitative interpretation workflows. Emphasis will be given to practical approaches enhancing cross-discipline integration and validation of data analytics methods using both geophysical and data science approaches. We highlight the advantages, challenges and systematic biases encountered in this type of analysis and discuss potential extensions of the data analytics approach using deep learning methods.
After receiving his Ph.D. in Physics from Florida State University, Mike has worked as a researcher in particle physics and cosmology with a keen interest in phenomenological modeling and the interface between theory and experiment. He joined Shell in 2001 and focused on various aspects of geophysics, both seismic and non-seismic, most importantly the applications of inversion theory to quantitative interpretation and reservoir characterization. Since 2010, he has been working for ConocoPhillips in a similar capacity and with the onset of data analytics and machine learning has taken a strong interest in applications of data-driven model building approaches to solving geophysical problems
Dr. Rahul Gajbhiye working as an Assistant Professor in the Department of Petroleum Engineering at KFUPM. He earned his Ph.D. degree in petroleum engineering from Louisiana State University. Before joining KFUPM he worked as a post-doc research associate at Tulsa University Drilling Research Project (TUDRP) at Tulsa University, Oklahoma. His research area includes Surface Production facilities, Optimization and Automation, AI applications in the petroleum industry, multiphase flow in pipes, and EOR.
He is serving as a faculty advisor for the SPE-KFUPM student chapter since 2013 and reviewer for several journals including Arabian Journal for Science and Engineering, Petroleum Science and Engineering, Colloids and Surfaces A: Physicochemical and Engineering Aspects, and Industrial and Engineering Chemistry. He is also the principal investigator of projects on EOR, Multiphase flow, and GOSP optimization.
He is a member of SPE and AADE and received awards for presentations at the GOM Deepwater Technical Symposium, New Orleans (2009), and the AADE (Premier Fluid Conference), Houston (2010). Recently he is awarded the SPE regional service award 2020, from the Middle East and North Africa region.
Dr. Tom Smith, the founder of Seismic Micro-Technology (SMT) and creator of the KINGDOM Software Suite, is the President and CEO of Geophysical Insights (geoinsights.com), where he leads a team of geophysicists, geologists and computer scientists in developing machine learning technologies for interpretation. Dr. Tom Smith received BS and MS degreeS in Geology from Iowa State University and a Ph.D. in Geophysics from the University of Houston. Over a 50-year career, Dr. Smith has been recognized numerous times for his accomplishments in pioneering the science of geophysics. The Society of Exploration Geologists (SEG) recognized Dr. Smith’s work with the SEG Enterprise Award in 2000, and in 2010, the Geophysical Society of Houston (GSH) awarded him an Honorary Membership. Iowa State University (ISU) recognized Dr. Smith’s accomplished career with the Distinguished Alumnus Lecturer Award in 1996, the Citation of Merit for National and International Recognition in 2002, and the highest alumni honor in 2015, the Distinguished Alumni Award. The University of Houston College of Natural Sciences and Mathematics recognized Dr. Smith with the 2017 Distinguished Alumni Award.
Today most of the focus of AI on the Machine Learning / Deep Learning industry requires a large amount of data that is not always available in early phases of Exploration and Production. To address the data restrictions, I will discuss neuro-symbolic approaches to combine Machine Learning / Deep Learning with formal pre-existing domain knowledge and formal knowledge representation and reasoning. This knowledge-enhanced Machine Learning approach, coupled with transfer learning techniques, allows working with a smaller amount of data and effort necessary to train AI-based models. We will discuss how we can augment ML technologies with domain and contextual knowledge, and enabled more effective transfer learning in applications to real cases for AI-assisted seismic Interpretation and well-log analysis.
Ulisses T. Mello is the director of IBM Research – Brazil with sites in São Paulo and Rio de Janeiro. Ulisses is also an IBM global research executive for the chemicals and petroleum Industry sector. He holds a Ph.D. (1994) and MA (1992) in geology from Columbia University, an M.Sc. in geology from Federal University of Ouro Preto (1987), and a B.Sc. (1983) in geology from the University of Sao Paulo, Brazil. His research interests are large-scale basin modeling, hydrogeological modeling, digital oil fields, integrated operation optimization, data assimilation, unstructured meshing, parallel computing, advanced water management, and computational geosciences.
The past a few years mark the fastest development of machine learning in seismic interpretation community we have ever seen. One of the major accelerators of such growth is the success of deep learning methods, originated from the computer vision discipline. Over the past three years, we witnessed the rapid adoption of deep learning techniques in seismic interpretation. However, most of such adoption is still limited to academia and research institutes, primarily due to the fact that, albeit providing a high-quality result, deep learning methods usually requires much more training data to work effectively. Preparing such training data is often time-consuming, if not impractical, for a seismic interpreter. This presentation is focused on deep learning applications that require limited or even no training data from a general seismic interpreter, which make deep learning more accessible to general seismic interpreters. Examples on deep learning-based seismic facies classification and fault detections demonstrate that a general seismic interpreter can benefit from the high-quality result, while also with greatly improved efficiency.
Dustin Dewitt has spent the last 10 years in pursuit of geoscience excellence, integrating advanced seismic interpretation techniques with general geoscience workflows to develop methods, which enhance geologic interpretations. After service in the United States Navy, Dustin moved into the private sector, attaining both a B.S. and an M.S. in Geophysics and Seismology from the University of Oklahoma. Upon graduating, he gained experience with BHP Billiton as a QI Geophysicist and subsequently, an Exploration Geophysicist. Currently, he is a Product Manager for Geophysical Insights, contributing to the development of Paradise, the AI workbench.
Waves of elastic energy travel through the Earth with the same physical principles as other waves travel through different mediums. This video focuses on the physics of traveling waves and why energy absorption is important to an understanding of seismic data. Starting with a liner second-order vibrating system as a mathematical model, the 50-minute short course presents the classes of waves and their associated measurements. The basics of energy loss in traveling waves are described, as well as the relationship between vibration and energy loss. A simplified model of the seismic geophone is used to described attenuation and damping ratio. Read more
Instructor: Dr. Tom Smith, President and CEO, Geophysical Insights
Certification Available: No
Total classroom time: 1 hour
The paper describes the combined use of machine learning and statistics to correlate to reservoir properties, thereby discriminating between the presence or absence of a reservoir. The results, presented using multiple statistical techniques, are repeatable and dependable in positive reservoir identification, including the reservoir's extent.
The first stage of the proposed statistical method has proven to be very useful in testing whether or not there is a relationship between two qualitative variables (nominal or ordinal) or categorical quantitative variables in the fields of health and social sciences. Its application in the oil industry allows geoscientists not only to test dependence between discrete variables but to measure their degree of correlation (weak, moderate or strong). The talk shows its application to reveal the relationship between a SOM classification volume of a set of nine seismic attributes (whose vertical sampling interval is three meters) and different well data (sedimentary facies, Net Reservoir, and effective porosity grouped by ranges). The data were prepared to construct the contingency tables, where the dependent (response) variable and independent (explanatory) variable were defined, the observed frequencies were obtained, and the frequencies that would be expected if the variables were independent were calculated, and then the difference between the two magnitudes was studied using the contrast statistic called Chi-Square. The second stage implies the calibration of the SOM volume extracted along the wellbore path through statistical analysis of the petrophysical properties VCL and PHIE, and SW for each neuron, which allowed to identify the neurons with the best petrophysical values in a carbonate reservoir.
Fabian Rada joined Petroleum Oil and Gas Services, Inc (POGS) in January 2015 as Business Development Manager and Consultant to PEMEX. In Mexico, he has participated in several integrated oil and gas reservoir studies. He has consulted with PEMEX Activos and the G&G Technology group to apply the Paradise AI workbench and other tools. Since January 2015, he has been working with Geophysical Insights staff to provide and implement the multi-attribute analysis software Paradise in Petróleos Mexicanos (PEMEX), running a successful pilot test in Litoral Tabasco Tsimin Xux Asset. Mr. Rada began his career in the Venezuelan National Foundation for Seismological Research, where he participated in several geophysical projects, including seismic and gravity data for micro zonation surveys. He then joined China National Petroleum Corporation (CNPC) as QC Geophysicist until he became the Chief Geophysicist in the QA/QC Department. Then, he transitioned to a subsidiary of Petróleos de Venezuela (PDVSA), as a member of the QA/QC and Chief of Potential Field Methods section. Mr. Rada has also participated in processing land seismic data and marine seismic/gravity acquisition surveys. Mr. Rada earned a B.S. in Geophysics from the Central University of Venezuela.
Federico Giannangeli is the E&P Director of Technology and Operating Model at Repsol. He currently leads a multidisciplinary organization with strong focus in value driven technology product development applications to the upstream portfolio. Federico has spent over 18 years in the Energy Industry with primary contribution in delivering global Oil & Gas developments offshore (i.e. ultra-deep, deep and shallow water), onshore and in remote harsh environments. He graduated as a Mechanical Engineer in Venezuela and holds a business certificate from Georgetown University.
Gabriel Guerra, currently is the leader of Shell's Exploration transformation journey, integrating the introduction of new business practices and ways of working to an established technology, digital and data strategy; providing the platform for lasting and enhanced exploration performance. Gabriel is a geologist by background and brings a breadth of experience and energy, after 18 years in various exploration positions with Enterprise Oil and Shell. He also has been involved from the start in shaping and leading exploration digitalisation and is deeply involved in leading the digital agenda for Shell. Gabriel is based in London but hails from Rio de Janeiro, in Brazil, and is married with two kids.
There is much hype around all topics related to digitalization and IR 4.0 and their underlying technologies. At the same time, industries have already seen some real-life applications and benefits as well as some real disruption to their value chains, making it more urgent than ever for oil & gas companies to accelerate their digital transformations. Despite the hype and the promise of machine learning, adoption outside of the tech sector is still at an early, often experimental stage with few firms having deployed it at scale.
This presentation will discuss some of the successes and challenges of moving machine learning in Oil & Gas from hype to reality. There have been plenty of promising successful deployments across robotics and autonomous vehicles, computer vision, virtual agents, and machine learning, with the latter including deep learning and underpinning many recent advances in the other AI technologies. However, the fact that it requires big data that must be trained on what’s often sparse, incomplete, and messy data, its tendency to cut across functional, geographic, and organizational silos, and its dependence on having a digital foundation and an upskilled workforce pose formidable challenges to scaling digital and machine learning in particular.
Hani Elshahawi is Digitalization Lead – Deepwater Technologies at Shell where he has spent the last 14 years. Before that, he led FEAST-Shell’s Fluid Evaluation and Sampling Technologies center of excellence, before becoming Deepwater Technology Advisor. Prior to Shell, Hani spent 15 years with Schlumberger in over 10 countries in Africa, Asia, and North America during which he has held various positions in interpretation, consulting, operations, marketing, and technology development. He holds several patents and has authored over 130 technical papers in various areas of petroleum engineering and the geosciences. He was the 2009-2010 President of the SPWLA, distinguished lecturer for the SPE and the SPWLA 2010-2011 and 2013, and recipient of the SPWLA Distinguished Technical Achievement Award in 2012.
Compressor stations used to move natural gas are one of the largest sources of fugitive methane emissions in the midstream sector, accounting for approximately 50% of all fugitive emissions(Zimmerle et al., 2015). This problem is most widespread at reciprocating compressors (Subramanian et al., 2015) where faulty seals are a key contributor to methane emissions (Johnson et al., 2015). As such, there is a significant need for a robust technology that could provide an early indication of an unexpected emission. Equally important, the technology needs to be able to account for biogenic versus anthropogenic sources of methane. One means of indirectly making this determination is to leverage optical technologies that can autonomously pinpoint the source of such leaks.
This presentation discusses recent work funded by the U.S. Department of Energy (DOE) National Energy Technology Laboratory (NETL), focused on the development of an innovative remote sensing technology that can reliably and autonomously detect fugitive methane emissions in near real-time, using computer vision and deep learning. The technology called the Smart Methane Leak Detection (SLED/M) system was initially developed to monitor facilities such as compressor stations in a stationary, pan-tilt-zoom configuration.
The system has recently been adapted to monitor facilities from an unmanned aerial system (UAS). The speed and maneuverability of UAS platforms are attractive to leak detection and repair program operators but introduce several challenges. Many existing methane detection algorithms rely on mostly static backgrounds becoming unusable with motion. In addition, top-down views of fugitive methane emissions present differently in Optical Gas Imagers (OGI) compared to looking across the plume. Our work has focused on overcoming these challenges, enhancing the operators' ability to detect methane emissions and pinpoint their sources. Another recent adaptation to SLED/M is the ability to quantify methane emissions using passive sensors (OGI, thermal camera), environmental conditions, plume modeling, and deep learning.
SLED/M advances the state-of-the-art for methane emission detection and quantification by focusing on three key critical criteria for effective methane emission mitigation: (1) autonomy (no need for a human to be in the loop), (2) high reliability (low false alarm rates), and (3) real-time performance. Results from this work will be presented.
Mr. Spidle is a research engineer in the Advanced Inspection Systems Section at Southwest Research Institute. He has a background in digital image processing, computer vision, and machine learning. Mr. Spidle is the Principal Investigator and lead developer on a project for the US Department of Energy, focused on autonomous detection of methane leaks using onlyMidwave Infrared (MWIR) optical sensing and deep learning.
Every day our lives are intertwined with applications, services, orders, products, research, and objects that are incorporated, produced, or effected in some way by Artificial Intelligence and Machine Learning. Buzz words like Deep Learning, Big Data, Supervised and Unsupervised Learning are employed routinely to describe Machine Learning, but how do these applications relate to geoscience interpretation and finding oil and gas? More importantly, do these Machine Learning methods produce better results than conventional interpretation approaches? This course will initially wade through the vernacular of Machine Learning and Data Science as it relates to the geoscientist. An overview of how these methods are being employed, as well as, interpretation case studies of different machine learning applications will be presented. An overview of how high-performance computing and the utilization of Cloud Services related to Machine Learning will be described. Machine Learning is a disruptive technology that holds great promise and this course will be presented from an interpreter’s perspective, not a data scientist. This course will provide an understanding of how Machine Learning for interpretation is being utilized today and provide insights on future directions and trends.
Instructor: Rocky Roden, Sr. Consulting Geophysicist, Geophysical Insights
Certification Available: No
Total classroom time: 1 hour
The aim of the Digital Democracy program is scaling digitalization to speed up time to value.
We will mobilize and empower the OMV Petrom workforce to use Data visualization (PowerBI), eSignatures, Desktop automation and Advanced analytics to solve personal or departmental digitalization challenges and make our company more agile and efficient.
Empowering people (Citizen Developers) through access to data relevant to their job and providing them with the tools and skills to solve local digitalization opportunities will create insight and efficiency driven savings and identify and grab new opportunities faster.
Upskilling the workforce and moving them to a digital mindset will also increase the speed of adoption of the corporate digital programs.
By combining the top down large digitalization projects with the bottom up Digital Democracy approach, we expect to scale faster and be more agile.
Jaco is Chief Innovation at OMV Petrom, where he is driving the change towards a more innovative and digitally dexterous company with a healthy portfolio of new business options. He does so a.o. by sponsoring a portfolio of proof of concepts to kick start innovations, building a digital academy to develop skills, forging collaborations with external partners, and leading a cross-divisional innovation council to drive alignment and implementation throughout the company.
In his four years at Shell, he helped their transition to a more Open Innovation approach. He re-invigorated initiatives like GameChanger and External Technology Collaborations, and set up internal tribes and learning programs to drive culture change. He built Shell TechWorks, an innovative outfit that maximizes the use of external technologies in a ‘skunkworks’ approach.
Jaco also spent 23 years with Royal DSM in progressive roles across four different businesses, including Business manager Flavors, BU Director (super)Fibers, VP Business Incubator, and Director of the China Innovation Centre. As a member of the DSM Innovation Council, he drove the company change from operational excellence to innovation excellence.
Enterprises are now operating at the edge. On factory floors. In stores. On city streets. In urgent care facilities. On Rigs. In Refineries. On Utility Lines. In Smart Meters. At the edge, data flows from billions of IoT sensors to be processed by edge devices and servers, driving real-time decisions where they are needed. All of this is possible—smart retail, cities, manufacturing, utilities, and oil and gas—by bringing the power of AI to the edge.
The presentation discusses methods of leveraging a cloud-native, edge-first, and scalable software stack that enable quick and easy provisioning of infrastructure across a range of devices and servers. Come to the session to discuss the many opportunities to deliver the power of accelerated AI computing at the edge.
Ken Hester is a Solution Architect Manager for NVIDIA supporting the Energy / O&G Industry in HPC, AI Deep Learning and Machine Learning, and CUDA GPU compute. He is based out of Houston, Texas, and has been with NVIDIA for over 5 years. Prior to NVIDIA, Ken worked in Energy for 15+ years as an industry expert in data science, software architecture, software design and development.
For more information about Ken, visit LinkedIn (https://www.linkedin.com/in/kenhester).
Mapping and extracting features of interest is one of the most important objectives in seismic data interpretation. Due to the complexity of seismic data, geologic features identified by interpreters on seismic data using visualization techniques are often challenging to extract. With the rapid development in GPU computing power and the success obtained in computer vision, deep learning techniques, represented by convolutional neural networks (CNN), start to entice seismic interpreters in various applications. The main advantages of CNN over other supervised machine learning methods are its spatial awareness and automatic attribute extraction. The high flexibility in CNN architecture enables researchers to design different CNN models to identify different features of interest.
Instructor: Dr. Tao Zhao
Certification Available: No
Total classroom time: 45 minutes
The course is ideal for geoscientists, engineers, and data analysts at all experience levels. Concepts are supported with ample illustrations and case studies, complemented by mathematical rigor benefiting the subject. Aspects of supervised learning, unsupervised learning, classification, and reclassification are introduced to illustrate how these methods apply to seismic data. For this version of the class, assessments are given at intervals throughout the course to gauge comprehension. Upon completion with a passing total score, a certificate is issue, certified by Geophysical Insights.
Instructor: Dr. Tom Smith, President and CEO, Geophysical Insights
Certification Available: Yes
Total classroom time: 12 hours
Cost: $75 (with certification), $50 (without certification)
This course covers big-picture machine learning buzz words with both humor and unassailable frankness. The goal of the course is for every geoscientist to gain confidence in these important concepts and how they add to our well-established practices, particularly seismic interpretation. Presentation topics include a machine learning historical perspective, what makes it different, a fish factory, Shazam, comparison of supervised and unsupervised machine learning methods with examples, tuning thickness, deep learning, hard/soft attribute spaces, seismic wavelets and multi-attribute samples, and several interpretation examples. On conclusion, you may not know how to run machine learning algorithms, but you should be able to appreciate their value and some of their limitations.
Instructor: Dr. Tom Smith, President and CEO, Geophysical Insights
Successful reservoir management decisions require a good understanding of reservoir distribution, quality, and heterogeneity. Reservoir engineers and petrophysicists usually study wireline logs and cores to understand the reservoir properties and divide a given reservoir into various rock types. The rock typing analysis helps in differentiating good quality reservoirs vs. poor quality reservoirs and identify baffles and/or seals at the well locations. However, extracting this knowledge away from the well control is challenging especially for fields with limited well controls.
In this study, a 3D seismic data acquired in offshore Taranaki basin, New Zealand has been used to generate typical instantaneous and spectral decomposition seismic attributes which are sensitive to changes in the reservoir properties. The reservoir quality and heterogeneity of the main reservoir (C1 Sand reservoir) has been studied by applying the most common rock typing methods on well data of the field. The study showed integrating the reservoir information of multiple spectral instantaneous attributes using unsupervised machine learning algorithm such as self-organizing maps (SOM) aids in understanding reservoir distribution and reservoir heterogeneity.
Marwa Hussein received a B.S. (2010) in Geophysics from Ain Shams University, and then worked as teaching assistant in the Geophysics department at Ain Shams University for five years. She received her M.S. (2014) in applied Geophysics from Ain Shams University. She later received her Ph.D. in Geophysics (2020) from the University of Houston. She did different research projects and internships for different companies such as BP, Shell, Schlumberger and many joint ventures. Dr. Hussein is currently assistant lecture and researcher at Ain Shams University. Her research focusses primarily on advanced seismic interpretation techniques, seismic attribute analysis, reservoir characterization, machine learning and time-lapse seismic studies.
Machine learning has evolved over several decades. Since the mid-2000s, neural networks have re-emerged along with various deep learning architectures. These advances have enabled successful applications of deep learning methods in many industries. However, these methods are not being fully exploited in the Oil and Gas industry. Today, many researchers and engineers have taken the initiative to actively research and develop numerous modern machine learning applications in various domains in this industry, including geosciences, drilling, field development planning, completions, production forecasting, to name a few. During the talk, I will demystify the Machine Learning journey and share examples of how machine learning is changing our industry for the years to come. I will share lessons learned from our own company’s experience in this domain.
Data – its availability, volume, and diversity, along with advances in machine learning and computational power, have created unique opportunities to not only achieve significant improvements in both our and our clients, performance, but also to transform how the oil and gas service industry operates today, and in the future.
Maurice Nessim is the President of WesternGeco - Schlumberger, the world’s leading geophysical exploration company specialized in understanding complex subsurface challenges and designing an integrated data to discovery solution that will provide a better, faster, and cheaper answer using advanced processing and interpretation technologies. With over 35 years of oil and gas industry experience in various management and technical positions. Today, Maurice is pioneering WesternGeco’s progressive transformation into an asset-light business, built on WesternGeco’s leading position in multiclient, data processing and geophysical interpretation services. He has launched a digital subsurface platform using groundbreaking technology for a one of a kind access to data and technology. Driving a vision that capitalizes on Schlumberger’s digital technology and digital assets to accelerate energy discovery in exploration, development, and production cycles through forging long-lasting strategic collaboration and partnerships.
Dr. Nam Hoai Pham is currently principal geophysicist and QI specialist (Quantitative Interpretation) at Idemitsu Petroleum Norge AS. Nam spent almost 20 years working both as consultant and employee in various oil and gas companies, Statoil(now called Equinor), Den Norske, Envision, and Idemitsu with his specialties in Quantitative seismic Interpretation, Rock-physics, AVO, and Inversion. His academic background is master’s degrees in reservoir engineering at the University of Stavanger - Norway, and Ph.D. in Geophysics and Rock-physics at NTNU (Norwegian University of Science and Technology).
3D seismic imaging revolutionized hydrocarbon exploration providing a robust picture of the subsurface. Higher prices enabled expensive technologies and investments in the development of previously uneconomic deposits. The balance between development and the market value of the gas or oil is critical. Recent advances in 3D seismic allow interpreters to map areas of higher productivity and identify bypassed reserves. MicroSeismic mapping has made completion more efﬁcient and safer. Geophysical data is now an accepted early development tool of successful oil and gas companies.
Nancy House, a member of SEG for nearly 40 years, joining in 1978 as a graduate student at CSM, has worked as a geophysicist for multinational corporations and small independent oil companies primarily as an interpreter on and offshore US, South America and Africa (West and East), and other areas. She is a second-generation geoscientist, growing up in South America and Singapore. She has a BA in Geology/Geophysics from the University of Wyoming, (1976), an MSc in Geophysics from Colorado School of Mines (1979), and did additional postgraduate work at Colorado School of Mines in Reservoir Characterization, Economics and Geophysics (2000-2002).
From the first SEG Annual Meeting Nancy attended in San Francisco in 1978 as a student, she knew that SEG would play an essential part in her career. Early on, SEG provided valuable training, networking opportunities and guidance in professional standards and ethics. Nancy has served on numerous committees including, GAC, Women’s Network Committee, Finance Committee, Membership Committees in SEG. She served as Denver Geophysical Society President/Past President from 2008-2010, General Chairman for SEG AM 2010, and Secretary-Treasurer 2011-2012, Chairman of SEG Women’s Network Committee 2012-2013, and the Finance Committee 2012-2014. Nancy has been a regular contributor to TLE, presenter at meetings (Best Poster 1995), a reviewer for Geophysics and a session chair for various meetings. She also served on several task forces to understand critical business issues around SEGs global activities. She has been a member of AAPG, Dallas GS, Den GS, RMAG, DivEnvirGeol(AAPG), AGU, AWG, and EAEG.
As SEG President 2017-2018, she focused on increasing diversity and inclusion in the profession of geophysics, continued strategies implemented by Rd. Bradford and Bill Abriel and recognized the social contribution of Geophysics and applied geophysics in areas additional to oil and Gas
Over the last decade, the O&G Energy industry has slowly evolved to incorporate essential digitalization components from the so-called “Industry 4.0 Revolution”. Nevertheless, this digitalization process has led to an explosive increase in the magnitude and value of data generated from several interconnected systems, each with their proprietary framework, standards, and analytical platforms that leave the engineers in charge of critical decision making overwhelmed by the amount of endless segregated information flow. Companies are required to break an ongoing project into small individual tasks and develop the required digital interfaces between every single moving subsystem in-house. This leads to unnecessary complexity, lack of long-term support, and inefficiencies. Furthermore, progress is still lacking in artificial intelligence, visualization, and interoperability of the drilling/energy/business processes.
This presentation will focus on how we aim to solve these problems by developing a state-of-the-art energy analytics and visualization digital twin platform that leverages photorealistic real-time graphics, high-fidelity numerical simulation, and trained physics-based machine learning algorithms to provide the entire energy extraction processes at the fingertips of the operator through a revolutionizing cloud-based platform.
Narendra Vishnumolakala (Vish) is currently a doctoral student at Texas A&M University. He is currently working on developing a reinforcement learning based autonomous downhole drilling tool. Vish has a Master’s in Petroleum Engineering and Bachelor’s in Electronics and Instrumentation Engineering. Before joining the Ph.D. program, Vish worked for ExxonMobil as a Subject Matter Expert in Automation for about 3 years. Prior to that, he worked in the downstream sector, for Indian Oil Corporation Limited in India as an Operations Officer for 3 years. He is currently co-founder of Teale, a tech startup focused on accelerating digital transformation of the Energy Industry.
Neil is a Principal Data Scientist for McKinsey QuantumBlack. Neil started his career working as a Field Engineer for Schlumberger working in the Manifa and Shaybah fields in Saudi Arabia in Drilling and Measurements. Neil then joined Shell in Houston as an Automation Wells Engineer. As part of Shell's digital transformation, Neil moved into the role of Deep Learning Lead where he led the Geodesic – Digital Accelerator Product and founded the Shell AI Residency Programme.
Neil received his undergraduate degree in 2007 in Astrophysics from Peterhouse College at the University of Cambridge. Neil then went on to receive his Engineering Doctorate from the Department of Aerospace Sciences from Cranfield University in the UK on the topic of Trajectory Control for Autonomous Systems. Neil is currently an Adjunct Professor in the Practice at Rice University in the Statistics Dept and holds eleven patents and patent-pendings in Machine Learning and Control systems for oil and gas applications. Recently Neil co-organizes the Houston Machine Learning Meetup Group.
Rob is a Principal Program Manager on the Azure Global Energy Team at Microsoft. He recently joined Microsoft after 17 years at ExxonMobil. He brings industry experience and geoscience expertise to Microsoft where he is focused on helping oil and gas customers find value through innovation. Over the past 17 years at ExxonMobil, he held 15 different technical and leadership positions in Exploration, Development, and Production. He’s worked with partners and governments in 10 different countries on 5 continents.
Most recently, Rob led the Upstream Innovation team within ExxonMobil. His team was focused on rapidly delivering solutions to help ExxonMobil increase profitability from exploration to production. They were also working to instill a culture of innovation by bringing an entrepreneurial mindset to all employees. Leveraging design thinking and lean startup, the team demonstrated they can challenge paradigms, empower others, and deliver value.
Rob earned a Bachelor of Science in Geology from Vanderbilt University and a Master of Science from the University of California Santa Cruz. He lives in the Woodlands, Texas with his wife and two sons (11 and 14 years old). Rob is a former Loaned Executive and Young Leaders Chair with United Way of Greater Houston. He enjoys snow skiing, traveling, and inspiring others to innovate.
Every day our lives are intertwined with applications, services, orders, products, research, and objects that are incorporated, produced, or effected in some way by Artificial Intelligence and Machine Learning. Buzz words like Deep Learning, Big Data, Supervised and Unsupervised Learning are employed routinely to describe Machine Learning, but how does this technology relate to geoscience interpretation and finding oil and gas? More importantly, do Machine Learning methods produce better results than conventional interpretation approaches, or are they simply a means of automating existing processes? Traditional interpretation approaches that geologists and geophysicists employ are physics-based solutions and now Machine Learning threatens to alter that accepted practice. Will the integration of machine learning improve our present interpretation workflows, provide moderate to no improvements (overhyped) or produce “profound” results that have not been identified previously? Machine Learning is a disruptive technology that holds great promise and this presentation will explore that potential from a geoscience interpreter’s perspective.
Rocky R. Roden has been involved in the application, evaluation, testing, and development of geoscience technical approaches for the last 44 years (past Chairman – The Leading Edge Editorial Board). In the previous 18 years at his consulting company Rocky Ridge Resources he has worked with numerous oil companies and geoscience software development companies on geoscience technology. As former Chief Geophysicist and Director of Applied Technology for Repsol-YPF, his role comprised advising corporate officers, geoscientists, and managers on interpretation, strategy and technical analysis for exploration and development in offices in the U.S., Argentina, Spain, Egypt, Bolivia, Ecuador, Peru, Brazil, Venezuela, Malaysia, and Indonesia. He is involved in the technical and economic evaluation of Gulf of Mexico lease sales, farmouts worldwide, and bid rounds in South America, Europe, and the Far East. Previous work experience includes exploration and development at Maxus Energy, Pogo Producing, and Texaco. He holds a B.S. in Oceanographic Technology-Geology from Lamar University and a M.S. in Geological and Geophysical Oceanography from Texas A&M.
Different tech industries in silicon valley were successfully able to reap the benefits of integrating machine learning into their business models. The oil and gas industry is slowly but surely catching up to the trend of utilizing machine learning in different aspects of the business. Several oil companies and service providers have partnered with tech companies like Microsoft and others to reap the benefits of data analytics for their organizations. In this talk, I will briefly touch upon different applications of data analytics possible in reservoir engineering and how some of the recent work done in this space have benefited the reservoir engineering community with reduced cycle times. Finding the right models to fit your data is of extreme importance and all engineers need to step up and get digitally fluent to be able to leverage data science into mainstream workflows fully. Traditional reservoir engineering workflows are time and labor-intensive. Integrating multiple sources and scale of data coming in from a variety of surveillance operations need an integrated approach to characterize reservoirs quickly and accurately. Three case studies will be presented from published literature that have presented new ways of using machine learning techniques to improve reservoir simulation, reserves forecasting and reservoir monitoring.
Sarath Ketineni currently works as a senior reservoir engineer at Chevron’s Mid-Continent Business Unit, working in an Asset Development role. He began his career 4 years ago with Chevron and has had two years of prior downstream experience. In his current role, he optimizes field development plans for conventional waterflood and tertiary floods within Chevron’s portfolio and unconventional EOR projects. Prior to this role, he worked as a reservoir simulation engineer at Chevron’s Energy Technology Company. He also serves as a Technical Editor for several SPE journals, the Journal of Natural Gas Science and Engineering, and the Journal of Petroleum Science and Engineering. Apart from these, he is also an SPE e-mentor, student paper contest judge, and virtual career pathways advisor at SPE. He holds a B.Tech in Chemical Engineering from IIT Madras and M.S., Ph.D. in Petroleum Engineering from Penn State. His broad research interests lie in artificial intelligence for oil and gas, advanced reservoir simulation techniques, 4D seismic data integration, and unconventional EOR. Sarath Ketineni currently serves on SPE GCS Young Professionals Board as Roughneck Camp co-Chair.
The evaluation of seismic attributes is a powerful tool in the interpretation of different geologic environments of deposition. Seismic attributes, specifically geometric and spectral decomposition attributes, provide a framework for interpreting geologic features that define depositional environments. This video course identifies the appropriate seismic attributes for various geologic settings and describes how these attributes are applied. Lecture and demonstrations cover the use of attributes in interpretation workflows and manipulate attribute parameters to highlight geologic features. The last video segment of the course describes how sets of attributes are analyzed and classified using multi-attribute, Machine Learning processes to extract more information from the seismic response. Read more
Instructors: Dr. Kurt Marfurt, The University of Oklahoma | Dr. ChingWen Chen, Geophysical Insights | Rocky Roden, Geophysical Insights
Certification Available: No
Total classroom time: 5 hours
A multidisciplinary approach that is maximizing information extraction from seismic to predict lithofacies and reservoir properties, based on the following steps is presented:
Multi-attribute seismic analysis was applied based on an unsupervised machine learning process called Self- Organizing Maps (SOMs) in Paradise software. The selection of input attributes was thoroughly tested and optimized, based on close co-operation between geophysicists and geologists to extract more extensive and detailed geological features from seismic.
Using the information from nearby wells and knowledge of rock physics, the individual neural classes were quantified and validated and then reorganized and translated to formation properties such as lithofacies, porosity, and clay content.
The study focused on the benefits and additional information that can be gained with this new approach compared to traditional quantitative interpretation approaches (i.e., a prediction from acoustic impedance alone). Multi-attribute classification using machine learning, SOM, gave a better representation of seismic characters, detecting the geologic trends in the field. A detailed quantitative interpretation of SOM neural classes was established to validate and translate formation-related classes optimally for reservoir prediction, and to eliminate classes irrelevant to the formations (i.e., seismic noise).
The result from the Wisting case study shows that the new method gives the best match to the well data and extracts more reservoir related information from seismic compared to the conventional quantitative interpretation (QI) approach. In the upper part of the Triassic, with fluvial sediments assigned to the RG2 unit (Fruholmen Fm.), the reservoir quality and extent of mud clast rich channel intervals are debated. In two of the wells (E and B), a thicker mud unit was observed, and it was debated if this could act as a barrier towards the overlying good reservoir. The result shows that the mud intervals are deposited locally and do not represent a regional mud layer. The additional information from seismic seems to be valuable when used as input and refinement to the digital geological model.
Sharareh is currently working as principal geophysicist for Idemitsu Petroleum Norge (IPN). Sharareh Holds a BSc. In physics and MSc in geophysics. She has been working for 17 years as geophysicist and Quantitative Interpretation Specialist for Norsk Hydro, Statoil (currently known as Equinor) and Idemitsu Petroleum Norge. She has been engaged in various exploration projects in Brazil, Gulf of Mexico, offshore Canada, Nigeria, Angola, Tanzania, Mozambique and Norwegian Continental Shelf.
The promise of Machine Learning applications in oil and gas is well-known, with most of the sector some way along the journey – particularly upstream. But the journey is not straightforward, with plenty of cautionary tales about high costs, low uptake, and dashed expectations.
Defining the right problem – and then developing the right solution - requires strong partnerships with technology companies and academia. Sophisticated and semi-automated data science tools are becoming increasingly accessible to technical staff, but the complementary skillsets of the data science discipline are vital to avoid common pitfalls like overtraining and poor data quality.
Woodside Energy has developed AI/ML solutions that impact almost everybody in the business. From natural language assistants capable of booking leave and retrieving purchase orders, to fast numerical simulations of complex physics, this presentation will reflect on Woodside’s experiences and learnings of the past five years, with insights into the importance of working effectively with people of all skill and awareness levels to fully unlock value.
Shaun Gregory has a Bachelor of Science (Hons) from the University of Western Australia in Mathematical Geophysics and a Master of Business and Technology from the University of New South Wales.
Shaun has over 25 years industry experience and leads Woodside’s Sustainability Division, including Exploration, Technology, Digital, New Energy and Carbon management. He is passionate about technology innovation, the role they play in enabling business outcomes and the future skills needed to be successful.
Shaun is a member of Dean’s Council for the faculty of Engineering, Computing and Mathematics at UWA and is a Board member of Scitech WA.
The 49-minute short-course focuses on Single trace seismic attributes, which include two general varieties: instantaneous and banded, sometimes called Wavelet attributes. The material starts with an organization of seven principal groups or types of attributes and proceeds to set out five primary groups of Single Trace attributes, including Instantaneous, the ‘Tool Kit’ attributes, Instantaneous Layer attributes, Banded attributes, and additional Banded attributes on phase breaks.
Instructor: Dr. Tom Smith, President and CEO, Geophysical Insights
Certification Available: Yes
Total classroom time: 1 hour
Cost: $30 (with certification), $20 (without certification)
Born in 1953 and presently Advisor Exploration in Idemitsu Petroleum Norway AS (IPN). Worked as independent consultant for IPN from 2000 until he became employed in his present position in 2009.
He is educated as sedimentologist and stratigrapher with a thesis on the Late Permian Tempelfjorden Group on Svalbard, at the University in Oslo in 1980 and worked there as Scientific Assistant until 1983 when he joined Saga Petroleum AS Geological Lab. as sedimentologist and worked with the depositional model for the Troll discovery. The earliest model was published in 1986, when he became partner in READ Geology Services and continued to work with the Troll model. A sequence stratigraphic model for this field was published in 1989 while he was working as an independent consultant for Saga Petroleum AS. In 1993 he became Senior Advisor in sedimentology in Saga and continued there until the company was bought up by Norsk Hydro AS.
During the last 14 years he has been working in the Barents Sea area and has contributed to the discoveries of Wisting, Alta and Neiden.
He has also an extensive experience in field geology, comprising eleven seasons on Svalbard, several fieldwork periods in Sinai (Egypt), Libya, several places in Europe and the USA. He has been leading excursions to Svalbard, Sinai and Luxembourg for the oil industry and proprietary excursion to Crete for IPN.